Updating examples

This commit is contained in:
Morgan Redfield 2018-08-08 18:49:56 -07:00
parent 3457f11211
commit 88efafa0e2
23 changed files with 1 additions and 28603 deletions

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/* Hamshield
* Example: AFSK Packet Tester
* This example sends AFSK test data. You will need a seperate
* AFSK receiver to test the output of this example.
* Connect the HamShield to your Arduino. Screw the antenna
* into the HamShield RF jack. Connect the Arduino to wall
* power and then to your computer via USB. After uploading
* this program to your Arduino, open the Serial Monitor to
* monitor the process of the HamShield. Check for output on
* AFSK receiver.
* Note: add message receive code
*/
#define DDS_REFCLK_DEFAULT 9600
#include <HamShield.h>
#include <DDS.h>
#include <packet.h>
#include <avr/wdt.h>
#define PWM_PIN 3
#define RESET_PIN A3
#define SWITCH_PIN 2
HamShield radio;
DDS dds;
AFSK afsk;
String messagebuff = "";
String origin_call = "";
String destination_call = "";
String textmessage = "";
int msgptr = 0;
void setup() {
// NOTE: if not using PWM out, it should be held low to avoid tx noise
pinMode(PWM_PIN, OUTPUT);
digitalWrite(PWM_PIN, LOW);
// prep the switch
pinMode(SWITCH_PIN, INPUT_PULLUP);
// set up the reset control pin
pinMode(RESET_PIN, OUTPUT);
// turn on pwr to the radio
digitalWrite(RESET_PIN, HIGH);
delay(5); // wait for device to come up
Serial.begin(9600);
radio.initialize();
radio.frequency(144390);
radio.setRfPower(0);
// radio.bypassPreDeEmph();
dds.start();
afsk.start(&dds);
delay(100);
Serial.println("HELLO");
}
void loop() {
prepMessage();
delay(10000);
}
void prepMessage() {
radio.setModeTransmit();
delay(500);
origin_call = "KC7IBT"; // get originating callsign
destination_call = "KC7IBT"; // get the destination call
textmessage = ":HAMSHIELD TEST";
Serial.print("From: "); Serial.print(origin_call); Serial.print(" To: "); Serial.println(destination_call); Serial.println("Text: "); Serial.print(textmessage);
AFSK::Packet *packet = AFSK::PacketBuffer::makePacket(22 + 32);
packet->start();
packet->appendCallsign(destination_call.c_str(),0);
packet->appendCallsign(origin_call.c_str(),15,true);
packet->appendFCS(0x03);
packet->appendFCS(0xf0);
packet->print(textmessage);
packet->finish();
bool ret = afsk.putTXPacket(packet);
if(afsk.txReady()) {
Serial.println(F("TX"));
radio.setModeTransmit();
//delay(100);
if(afsk.txStart()) {
} else {
radio.setModeReceive();
}
}
// Wait 2 seconds before we send our beacon again.
// Wait up to 2.5 seconds to finish sending, and stop transmitter.
// TODO: This is hackery.
for(int i = 0; i < 500; i++) {
if(afsk.encoder.isDone())
break;
delay(50);
}
Serial.println("RX");
radio.setModeReceive();
}
ISR(TIMER2_OVF_vect) {
TIFR2 = _BV(TOV2);
static uint8_t tcnt = 0;
if(++tcnt == 8) {
dds.clockTick();
tcnt = 0;
}
}
ISR(ADC_vect) {
static uint8_t tcnt = 0;
TIFR1 = _BV(ICF1); // Clear the timer flag
dds.clockTick();
if(++tcnt == 1) {
if(afsk.encoder.isSending()) {
afsk.timer();
}
tcnt = 0;
}
}

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chrome.app.runtime.onLaunched.addListener(function() {
chrome.app.window.create("window.html", {
"bounds": {
"width": 685,
"height": 800
}
});
});
$(function() {
$( "#tabs" ).tabs();
});

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{
"name": "HamShield",
"description": "HamShield",
"version": "1.0.0",
"app": {
"background": {
"scripts": ["background.js"]
}
}
}

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chromeApp

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body{
display: inline-block;
}
.btn {
background: #adadad;
background-image: -webkit-linear-gradient(top, #adadad, #3d3d3d);
background-image: -moz-linear-gradient(top, #adadad, #3d3d3d);
background-image: -ms-linear-gradient(top, #adadad, #3d3d3d);
background-image: -o-linear-gradient(top, #adadad, #3d3d3d);
background-image: linear-gradient(to bottom, #adadad, #3d3d3d);
-webkit-border-radius: 0;
-moz-border-radius: 0;
border-radius: 0px;
font-family: Arial;
color: #ffffff;
font-size: 20px;
padding: 10px 20px 10px 20px;
text-decoration: none;
float: left;
text-align:center;
}
.btn:hover {
background: #3d3d3d;
text-decoration: none;
}
.lcd {
-webkit-border-radius: 0;
-moz-border-radius: 0;
border-radius: 0px;
font-family: Courier New;
color: #00ff00;
font-size: 50px;
background: #000000;
padding: 10px 20px 10px 20px;
text-decoration: none;
width: 500px;
}
.lcd:hover {
text-decoration: none;
}
.bs1 { width: 50px; }
.bs2 { width: 100px; }
.bs3 { width: 200px; }

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<!DOCTYPE html>
<html lang="en">
<head>
<link rel="stylesheet" type="text/css" href="styles.css">
<meta charset="utf-8">
<title>APRSMessenger</title>
<link rel="stylesheet" href="jquery-ui.css">
<script src="jquery-1.10.2.js"></script>
<script src="jquery-ui.js"></script>
</head>
<body>
<div class="lcd" style="width: 768px">
144.390 MHz | APRS | <img src="bars-3.png" style="height: 32px; width: 32px;">
</div>
<div class="lcd" style="width: 768px; font-size: 15px;">
2M | BW: 25KHz | TX CTCSS: OFF | RX CTCSS: OFF | Filter: OFF | Presence: Available
</div>
<div class="btn" style="width: 75px">
Tune
</div>
<div class="btn">
Presence
</div>
<div class="btn">
GPS
</div>
<div class="btn">
SSTV
</div>
<div class="btn">
WX
</div>
<div class="btn">
MSG
</div>
<div class="btn">
SQ-
</div>
<div class="btn">
SQ+
</div>
<div class="btn">
VOL
</div>
<br/><br/>
<div id="tabs">
<ul>
<li><a href="#tabs-1">Console</a></li>
<li><a href="#tabs-2">KG7OGM</a></li>
<li><a href="#tabs-3">KC7IBT</a></li>
</ul>
</div>
<div id="tabs-1">
Debug messages
</div>
<div id="tabs-2">
</div>
<div id="tabs-3">
</div>
</body>
</html>

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/* Hamshield
* Example: AX25 Receive
* This example receives AFSK test data. You will need seperate
* AFSK equipment to send data for this example.
* Connect the HamShield to your Arduino. Screw the antenna
* into the HamShield RF jack. Plug a pair of headphones into
* the HamShield. Connect the Arduino to wall power and then to
* your computer via USB. After uploading this program to your
* Arduino, open the Serial Monitor so you will see the AFSK
* packet. Send AFSK packet from AFSK equipment at 145.01MHz.
* Note: add message receive code
*/
#include <HamShield.h>
#include <DDS.h>
#include <packet.h>
#define PWM_PIN 3
#define RESET_PIN A3
#define SWITCH_PIN 2
HamShield radio;
DDS dds;
AFSK afsk;
void setup() {
// NOTE: if not using PWM out, it should be held low to avoid tx noise
pinMode(PWM_PIN, OUTPUT);
digitalWrite(PWM_PIN, LOW);
// prep the switch
pinMode(SWITCH_PIN, INPUT_PULLUP);
// set up the reset control pin
pinMode(RESET_PIN, OUTPUT);
// turn on radio
digitalWrite(RESET_PIN, HIGH);
delay(5); // wait for device to come up
Serial.begin(9600);
Serial.println(F("Radio test connection"));
Serial.println(radio.testConnection(), DEC);
Serial.println(F("Initialize"));
delay(100);
radio.initialize();
radio.frequency(145010);
radio.setSQOff();
Serial.println(F("Frequency"));
Serial.println(radio.getFrequency());
delay(100);
Serial.print(F("Squelch(H/L): "));
Serial.print(radio.getSQHiThresh());
Serial.print(F(" / "));
Serial.println(radio.getSQLoThresh());
radio.setModeReceive();
//radio.bypassPreDeEmph();
Serial.println(F("DDS Start"));
delay(100);
dds.start();
Serial.println(F("AFSK start"));
delay(100);
afsk.start(&dds);
Serial.println(F("Starting..."));
delay(100);
dds.setAmplitude(255);
}
uint32_t last = 0;
void loop() {
if(afsk.decoder.read() || afsk.rxPacketCount()) {
// A true return means something was put onto the packet FIFO
// If we actually have data packets in the buffer, process them all now
while(afsk.rxPacketCount()) {
AFSK::Packet *packet = afsk.getRXPacket();
Serial.print(F("Packet: "));
if(packet) {
packet->printPacket(&Serial);
AFSK::PacketBuffer::freePacket(packet);
}
}
}
}
//TODO: d2 is the switch input, so remove this
ISR(ADC_vect) {
static uint8_t tcnt = 0;
TIFR1 = _BV(ICF1); // Clear the timer flag
//PORTD |= _BV(2); // Diagnostic pin (D2)
//dds.clockTick();
afsk.timer();
//PORTD &= ~(_BV(2)); // Pin D2 off again
}

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chrome.app.runtime.onLaunched.addListener(function() {
chrome.app.window.create("window.html", {
"bounds": {
"width": 685,
"height": 263
}
});
});

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{
"name": "HamShield",
"description": "HamShield",
"version": "1.0.0",
"app": {
"background": {
"scripts": ["background.js"]
}
}
}

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chromeApp

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body{
display: inline-block;
}
.btn {
background: #adadad;
background-image: -webkit-linear-gradient(top, #adadad, #3d3d3d);
background-image: -moz-linear-gradient(top, #adadad, #3d3d3d);
background-image: -ms-linear-gradient(top, #adadad, #3d3d3d);
background-image: -o-linear-gradient(top, #adadad, #3d3d3d);
background-image: linear-gradient(to bottom, #adadad, #3d3d3d);
-webkit-border-radius: 0;
-moz-border-radius: 0;
border-radius: 0px;
font-family: Arial;
color: #ffffff;
font-size: 20px;
padding: 10px 20px 10px 20px;
text-decoration: none;
float: left;
text-align:center;
}
.btn:hover {
background: #3d3d3d;
text-decoration: none;
}
.lcd {
-webkit-border-radius: 0;
-moz-border-radius: 0;
border-radius: 0px;
font-family: Courier New;
color: #00ff00;
font-size: 50px;
background: #000000;
padding: 10px 20px 10px 20px;
text-decoration: none;
width: 500px;
}
.lcd:hover {
text-decoration: none;
}
.bs1 { width: 50px; }
.bs2 { width: 100px; }
.bs3 { width: 200px; }

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<!DOCTYPE html>
<html>
<head>
<link rel="stylesheet" type="text/css" href="styles.css">
</head>
<body>
<div class="lcd" style="width: 623px">
220.000 MHz
</div>
<div class="lcd" style="width: 623px; font-size: 15px;">
1.25M | BW 12.5KHz | TX CTCSS: 103.5 | RX CTCSS: 109.4 | Filter OFF
</div>
<div class="btn" style="width: 75px">
BW
</div>
<div class="btn">
Band
</div>
<div class="btn">
+
</div>
<div class="btn">
-
</div>
<div class="btn">
&lt;&lt;
</div>
<div class="btn">
&gt;&gt;
</div>
<div class="btn">
SQ-
</div>
<div class="btn">
SQ+
</div>
<div class="btn">
VOL
</div>
<br/>
<div class="btn">
CTCSS
</div>
<div class="btn">
CDCSS
</div>
<div class="btn">
Vox
</div>
<div class="btn">
Filter
</div>
<div class="btn">
Offset
</div>
<div class="btn">
Directory
</div>
<div class="btn">
WX
</div>
<br/>
<div class="btn" style="width: 622px">
Transmit
</div>
</body>
</html>

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/* Hamshield
* Example: Crystal Calibration
* This example allows you to calibrate the crystal clock
* through the Arduino Serial Monitor.
* Connect the HamShield to your Arduino. Screw the antenna
* into the HamShield RF jack. Connect the Arduino to wall
* power and then to your computer via USB. After uploading
* this program to your Arduino, open the Serial Monitor.
* Make sure drop-down menu at the bottom of Serial Monitor
* is set to "Newline". Type 'h' into the bar at the top of
* the Serial Monitor and click the "Send" button for more
* instructions.
*/
#define DDS_REFCLK_DEFAULT 38400
#define DDS_REFCLK_OFFSET 0
#define DDS_DEBUG_SERIAL
#include <HamShield.h>
#include <DDS.h>
#define PWM_PIN 3
#define RESET_PIN A3
#define SWITCH_PIN 2
HamShield radio;
DDS dds;
void setup() {
// NOTE: if not using PWM out, it should be held low to avoid tx noise
pinMode(PWM_PIN, OUTPUT);
digitalWrite(PWM_PIN, LOW);
// prep the switch
pinMode(SWITCH_PIN, INPUT_PULLUP);
// set up the reset control pin
pinMode(RESET_PIN, OUTPUT);
// turn on radio
digitalWrite(RESET_PIN, HIGH);
delay(5); // wait for device to come up
Serial.begin(9600);
radio.initialize();
radio.setRfPower(0);
radio.frequency(145050);
dds.start();
dds.setFrequency(1200);
dds.on();
radio.bypassPreDeEmph();
}
enum Sets {
SET_REF,
SET_TONE,
SET_AMPLITUDE,
SET_ADC_HALF,
SET_OFFSET
} setting = SET_TONE;
char freqBuffer[8];
char *freqBufferPtr = freqBuffer;
uint16_t lastFreq = 1200;
volatile uint16_t recordedPulseLength;
volatile bool recordedPulse = false;
volatile bool listening = false;
volatile uint8_t maxADC = 0, minADC = 255, adcHalf = 40;
void loop() {
static uint16_t samples = 0;
static uint16_t pulse;
static uint32_t lastOutput = 0;
static float pulseFloat = 0.0;
if(recordedPulse) {
uint32_t pulseAveraging;
uint16_t tmpPulse;
cli();
recordedPulse = false;
tmpPulse = recordedPulseLength;
sei();
if(samples++ == 0) {
pulse = tmpPulse;
//pulseFloat = tmpPulse;
} else {
pulseAveraging = (pulse + tmpPulse) >> 1;
pulse = pulseAveraging;
pulseFloat = pulseFloat + 0.01*((float)pulse-pulseFloat);
}
if((lastOutput + 1000) < millis()) {
Serial.print(F("Pulse: "));
Serial.println(pulse);
Serial.print(F("Last: "));
Serial.println(tmpPulse);
Serial.print(F("Samples: "));
Serial.println(samples);
Serial.print(F("ADC M/M: "));
Serial.print(minADC); minADC = 255;
Serial.print(F(" / "));
Serial.println(maxADC); maxADC = 0;
Serial.print(F("Freq: "));
// F = 1/(pulse*(1/ref))
// F = ref/pulse
Serial.print((float)((float)dds.getReferenceClock()+(float)dds.getReferenceOffset())/(float)pulse);
Serial.print(F(" / "));
Serial.print((float)((float)dds.getReferenceClock()+(float)dds.getReferenceOffset())/pulseFloat);
Serial.print(F(" / "));
Serial.println(pulseFloat);
Serial.print(F("Freq2: "));
// F = 1/(pulse*(1/ref))
// F = ref/pulse
Serial.print((float)dds.getReferenceClock()/(float)pulse);
Serial.print(F(" / "));
Serial.println((float)dds.getReferenceClock()/pulseFloat);
samples = 0;
lastOutput = millis();
}
}
while(Serial.available()) {
char c = Serial.read();
Serial.println(c);
switch(c) {
case 'h':
Serial.println(F("Commands:"));
Serial.println(F("RefClk: u = +10, U = +100, r XXXX = XXXX"));
Serial.println(F(" d = -10, D = -100"));
Serial.println(F("Offset: s XXX = Set refclk offset"));
Serial.println(F("Radio: T = transmit, R = receive"));
Serial.println(F("Tone: t XXXX = XXXX Hz"));
Serial.println(F("Amp.: a XXX = XXX out of 255"));
Serial.println(F("DDS: o = On, O = Off"));
Serial.println(F("Input: l = Determine received frequency, L = stop"));
Serial.println(F("ADC: m XXX = Set ADC midpoint (zero crossing level)"));
Serial.println(F("ie. a 31 = 32/255 amplitude, r38400 sets 38400Hz refclk"));
Serial.println("> ");
break;
case 'u':
dds.setReferenceClock(dds.getReferenceClock()+10);
dds.setFrequency(lastFreq);
dds.start();
Serial.println(F("RefClk + 10 = "));
Serial.println(dds.getReferenceClock());
Serial.println("> ");
break;
case 'U':
dds.setReferenceClock(dds.getReferenceClock()+100);
dds.setFrequency(lastFreq);
dds.start();
Serial.println(F("RefClk + 100 = "));
Serial.println(dds.getReferenceClock());
Serial.println("> ");
break;
case 'd':
dds.setReferenceClock(dds.getReferenceClock()-10);
dds.setFrequency(lastFreq);
dds.start();
Serial.println(F("RefClk - 10 = "));
Serial.println(dds.getReferenceClock());
Serial.println("> ");
break;
case 'D':
dds.setReferenceClock(dds.getReferenceClock()-100);
dds.setFrequency(lastFreq);
dds.start();
Serial.println(F("RefClk - 100 = "));
Serial.println(dds.getReferenceClock());
Serial.println("> ");
break;
case 'l':
Serial.println(F("Start frequency listening, DDS off"));
dds.off();
listening = true;
lastOutput = millis();
Serial.println("> ");
break;
case 'L':
Serial.println(F("Stop frequency listening, DDS on"));
listening = false;
samples = 0;
dds.on();
Serial.println("> ");
break;
case 'T':
Serial.println(F("Radio transmit"));
radio.setModeTransmit();
Serial.println("> ");
break;
case 'R':
Serial.println(F("Radio receive"));
radio.setModeReceive();
Serial.println("> ");
break;
case 'r':
setting = SET_REF;
break;
case 't':
setting = SET_TONE;
break;
case 'a':
setting = SET_AMPLITUDE;
break;
case 'm':
setting = SET_ADC_HALF;
break;
case 's':
setting = SET_OFFSET;
break;
case 'o':
dds.on();
Serial.println("> ");
break;
case 'O':
dds.off();
Serial.println("> ");
break;
default:
if(c == '-' || (c >= '0' && c <= '9')) {
*freqBufferPtr = c;
freqBufferPtr++;
}
if((c == '\n' || c == '\r') && freqBufferPtr != freqBuffer) {
*freqBufferPtr = '\0';
freqBufferPtr = freqBuffer;
uint16_t freq = atoi(freqBuffer);
if(setting == SET_REF) {
dds.setReferenceClock(freq);
dds.setFrequency(lastFreq);
dds.start();
Serial.print(F("New Reference Clock: "));
Serial.println(dds.getReferenceClock());
} else if(setting == SET_TONE) {
dds.setFrequency(freq);
lastFreq = freq;
Serial.print(F("New Tone: "));
Serial.println(freq);
} else if(setting == SET_AMPLITUDE) {
dds.setAmplitude((uint8_t)(freq&0xFF));
Serial.print(F("New Amplitude: "));
Serial.println((uint8_t)(freq&0xFF));
} else if(setting == SET_ADC_HALF) {
adcHalf = freq&0xFF;
Serial.print(F("ADC midpoint set to "));
Serial.println((uint8_t)(freq&0xFF));
} else if(setting == SET_OFFSET) {
dds.setReferenceOffset((int16_t)atoi(freqBuffer));
dds.setFrequency(lastFreq);
Serial.print(F("Refclk offset: "));
Serial.println(dds.getReferenceOffset());
}
Serial.println("> ");
}
break;
}
}
}
ISR(ADC_vect) {
static uint16_t pulseLength = 0;
static uint8_t lastADC = 127;
cli();
TIFR1 = _BV(ICF1);
//PORTD |= _BV(2);
dds.clockTick();
sei();
if(listening) {
pulseLength++;
if(ADCH >= adcHalf && lastADC < adcHalf) {
// Zero crossing, upward
recordedPulseLength = pulseLength;
recordedPulse = true;
pulseLength = 0;
}
if(minADC > ADCH) {
minADC = ADCH;
}
if(maxADC < ADCH) {
maxADC = ADCH;
}
lastADC = ADCH;
}
//PORTD &= ~_BV(2);
}

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/* Hamshield
* Example: Functional Test
* This is a simple example to demonstrate HamShield receive
* and transmit functionality.
* Connect the HamShield to your Arduino. Screw the antenna
* into the HamShield RF jack. Plug a pair of headphones into
* the HamShield. Connect the Arduino to wall power and then
* to your computer via USB. After uploading this program to
* your Arduino, open the Serial Monitor. Serial Monitor will
* describe what you should be expecting to hear from your
* headphones. Tune a HandytTalkie to 446MHz to hear morse
* code example.
*/
#include <HamShield.h>
#define PWM_PIN 3
#define RESET_PIN A3
#define SWITCH_PIN 2
HamShield radio;
void setup() {
// NOTE: if not using PWM out, it should be held low to avoid tx noise
pinMode(PWM_PIN, OUTPUT);
digitalWrite(PWM_PIN, LOW);
// prep the switch
pinMode(SWITCH_PIN, INPUT_PULLUP);
// set up the reset control pin
pinMode(RESET_PIN, OUTPUT);
digitalWrite(RESET_PIN, HIGH);
delay(5); // wait for device to come up
Serial.begin(9600);
Serial.println("If the sketch freezes at radio status, there is something wrong with power or the shield");
Serial.print("Radio status: ");
int result = radio.testConnection();
Serial.println(result,DEC);
Serial.println("Setting radio to its defaults..");
radio.initialize();
}
void loop() {
radio.setModeReceive();
radio.setSQLoThresh(0);
radio.setSQOff();
radio.setVolume1(0xF);
radio.setVolume2(0xF);
delay(1000);
Serial.println("Changing frequency to 446.000 and waiting 10 seconds. You should hear static fading in.");
radio.frequency(446000);
for(int x = 0; x < 16; x++) { radio.setVolume1(x); delay(500); Serial.print(x); Serial.print(".."); }
for(int x = 0; x < 16; x++) { radio.setVolume2(x); delay(500); Serial.print(x); Serial.print(".."); }
radio.setVolume1(0xF);
radio.setVolume2(0xF);
delay(10000);
Serial.println("Changing frequency to 450.000 and waiting 10 seconds. You should hear static.");
radio.frequency(446000);
delay(10000);
Serial.println("Changing frequency to 220.000 and waiting 10 seconds. you should hear static.");
radio.frequency(220000);
delay(10000);
Serial.println("Changing frequency to 144.520 and waiting 10 seconds. you should hear static.");
radio.frequency(144520);
delay(10000);
Serial.println("Now lets scan for a weather radio station and listen for a while....");
radio.setWXChannel(radio.scanWXChannel());
Serial.println("If you hear weather radio, it means the scanWXChannel() and setWXChannel() and VHF works.");
Serial.println("We will sit here for 30 seconds because weather is important.");
delay(30000);
Serial.println("We will now tune to 446.000 and send morse code");
radio.frequency(446000);
radio.setModeTransmit();
radio.morseOut("HELLO PERSON");
radio.setModeReceive();
Serial.println("Now we are receiving on the call frequency. Starting over again.");
}

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/* Hamshield
* Example: Gauges
* This example prints Signal, Audio In, and Audio Rx ADC
* Peak strength to the Serial Monitor in a graphical manner.
* Connect the HamShield to your Arduino. Screw the antenna
* into the HamShield RF jack. Plug a pair of headphones into
* the HamShield. Connect the Arduino to wall power and then
* to your computer via USB. After uploading this program to
* your Arduino, open the Serial Monitor. You will see a
* repeating display of different signal strengths. Ex:
*
* [....|....] -73
* Signal
*
* Uncheck the "Autoscroll" box at the bottom of the Serial
* Monitor to manually control the view of the Serial Monitor.
*/
#include <HamShield.h>
#define PWM_PIN 3
#define RESET_PIN A3
#define SWITCH_PIN 2
HamShield radio;
void setup() {
// NOTE: if not using PWM out, it should be held low to avoid tx noise
pinMode(PWM_PIN, OUTPUT);
digitalWrite(PWM_PIN, LOW);
// prep the switch
pinMode(SWITCH_PIN, INPUT_PULLUP);
// set up the reset control pin
pinMode(RESET_PIN, OUTPUT);
digitalWrite(RESET_PIN, HIGH);
delay(5); // wait for device to come up
analogReference(DEFAULT);
Serial.begin(9600);
Serial.print("Radio status: ");
int result = radio.testConnection();
Serial.println(result,DEC);
radio.initialize();
radio.frequency(446000);
radio.setModeReceive();
Serial.println("Entering gauges...");
tone(9,1000);
delay(2000);
}
int gauge;
int x = 0;
int y = 0;
int peak = 0;
int a = 0;
int mini = 0;
int vpeak = 0;
int txc = 0;
int mode = 0;
void loop() {
int16_t rssi = radio.readRSSI();
gauge = map(rssi,-123,-50,0,8);
Serial.print("[");
for(x = 0; x < gauge; x++) {
Serial.print(".");
}
Serial.print("|");
for(y = x; y < 8; y++) {
Serial.print(".");
}
Serial.print("] ");
Serial.print(rssi);
Serial.println(" ");
Serial.println("Signal \n");
// radio.setModeTransmit();
int16_t vssi = radio.readVSSI();
// radio.setModeReceive();
if(vssi > vpeak) { vpeak = vssi; }
gauge = map(vssi,-50,-150,0,8);
Serial.print("[");
for(x = 0; x < gauge; x++) {
Serial.print(".");
}
Serial.print("|");
for(y = x; y < 8; y++) {
Serial.print(".");
}
Serial.print("] ");
Serial.print(vpeak);
Serial.println(" ");
Serial.println("Audio In\n");
a = analogRead(0);
if(a > peak) { peak = a; }
if(a < mini) { mini = a; }
gauge = map(a,400,1023,0,8);
Serial.print("[");
for(x = 0; x < gauge; x++) {
Serial.print(".");
}
Serial.print("|");
for(y = x; y < 8; y++) {
Serial.print(".");
}
Serial.print("] ");
Serial.print(a,DEC);
Serial.print(" ("); Serial.print(peak,DEC); Serial.println(") ");
Serial.println("Audio RX ADC Peak\n");
}

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/* Hamshield /* Hamshield
* Example: Signal Test * Example: Signal Test
* Plays back the current signal strength level and morses out * Transmits current signal strength level and Morses out
* it's call sign at the end. You will need a HandyTalkie (HT) * it's call sign at the end. You will need a HandyTalkie (HT)
* to test the output of this example. You will also need to * to test the output of this example. You will also need to
* download the PCM library from * download the PCM library from